Sense the unseen.Precision. Proven.

In the field of modern medical imaging diagnosis, scientific control of radiation dose is an important foundation for diagnosis and treatment, and is directly related to patient safety and the standardization of clinical examinations. As medical imaging equipment continues to be iteratively upgraded, the frequency of applications of various types of radiological examinations continues to increase. How to accurately monitor radiation doses and standardize diagnosis and treatment procedures has become a focus of major medical institutions. Accurate dose monitoring equipment can provide reliable data support for radiation diagnosis and treatment work, help medical staff reasonably control examination parameters, and optimize the diagnosis and treatment service process. The core of radiation dose control in radiological examinations lies in precise measurement and dynamic control. Different groups of people and different examination parts have different tolerances to radiation. Conventional equipment parameter preset modes are difficult to adapt to multiple...

In many scenarios such as nuclear energy utilization, industrial flaw detection, scientific research experiments, etc., environmental monitoring of ionizing radiation is the basic work to ensure operational safety and maintain environmental stability. As one of the common types of radiation, neutron radiation has strong penetrating power and high concealment. It cannot be directly detected through the human senses. It is necessary to rely on professional monitoring equipment to complete data collection and environmental investigation to provide a safe basis for on-site operations. The popularization and application of various types of radiation monitoring equipment have made radiation control in complex scenarios more standardized and accurate. In the neutron radiation monitoring system, the neutron dose rate meter is a highly targeted special monitoring equipment. It is mainly used to detect the neutron radiation dose rate value in the environment in real time and accurately capture the dynamic changes in environmental radiation intensity. This equipment relies on mature detection principles...

In many industry scenarios involving radioactive materials, such as the nuclear industry, medical radiation, scientific research experiments, etc., monitoring of radiation contamination of the environment and object surfaces is the basic work to ensure operational safety and standardize production operations. Doing a good job in radiation pollution screening can effectively avoid risks caused by the spread of radioactive materials, protect the safety of staff and the surrounding environment, and provide reliable data support for industry compliance operations. The rational use of various types of monitoring equipment makes radiation pollution detection work more standardized and refined. Radioactive contamination mostly adheres to equipment surfaces, floors, walls and work tools, and is highly concealed and difficult to detect. This type of contamination cannot be identified with the naked eye, and it is difficult to detect with conventional tools. Special equipment is required to complete accurate screening. ...

In special operation scenarios such as industrial flaw detection, nuclear medicine, and radioactive scientific research, radiation risks are always a safety hazard that workers need to focus on. The radiation in this type of environment is invisible, intangible, and cannot be directly sensed through the human body's senses. Long-term cumulative exposure to trace amounts will cause chronic effects on the human hematopoietic and immune systems. Therefore, normalized radiation dose monitoring is an important part of self-protection and standardized work for front-line workers, and it is also a basic and critical part of the industry's safety production system. With the iterative update of safety protection technology, various types of portable monitoring equipment are gradually popularized in front-line work positions to protect the health and safety of employees. Among many radiation monitoring equipment, monitoring equipment suitable for personal wear, with its small size and portability...

In the fields of ecological environment monitoring, industrial production protection, and public safety and security, regular detection of environmental radiation levels is an important link in protecting public health and ecological stability. With the steady development of environmental monitoring technology, various types of specialized monitoring equipment are gradually put into use in civil and industrial scenarios, providing solid equipment support for radiation environmental data collection and risk investigation, making invisible radiation risks detectable and controllable. In daily life, many people only have a conceptual understanding of radiation. Invisible and intangible radiation often causes unknown concerns. In fact, trace amounts of natural radiation exist in the natural environment and are distributed in rocks, soil, air and other environmental media. Normal doses of radiation will not affect the human body or ecology...

At petrochemical, nuclear fuel processing or emergency response sites, the environment often contains two deadly threats at the same time: invisible ionizing radiation, and flammable gases that may be detonated by sparks or high temperatures at any time. Once ordinary radiation detection equipment generates a weak arc, the original design intention of the explosion-proof radiation measuring instrument is to weave the two logical lines of "detection sensitivity" and "physical isolation" into the same protective shell. Its working principle can be broken down into three levels. The first layer is the detection core: scintillator detectors or semiconductor detectors are usually used inside the instrument.

In the nuclear industry, radiological medicine or environmental monitoring, workers often face a dilemma: the dose rate near the radiation source is high, and direct proximity to the reading may bring unnecessary exposure risks; but if the distance is too far, it is difficult for ordinary hand-held instruments to accurately capture the signal. The long pole radiation measuring instrument is a special device designed to resolve this contradiction. The core structure of the long-rod radiation measuring instrument consists of three parts: the probe, the telescopic rod and the main unit. The probe usually uses a scintillator detector or a Geiger-Miller counter. When radiation particles (such as gamma photons or beta particles) enter the detector